针对我国南海环境条件下超深水海洋油气资源开发中的特有问题,提出一种新型超深水海洋油气开发装置概念——张力系泊式水中生产系统(subsurface tension leg production system),简称STLP系统.STLP系统具备水中完井和油气外输功能以及...针对我国南海环境条件下超深水海洋油气资源开发中的特有问题,提出一种新型超深水海洋油气开发装置概念——张力系泊式水中生产系统(subsurface tension leg production system),简称STLP系统.STLP系统具备水中完井和油气外输功能以及各种浮式生产平台.阐述了STLP系统的基本工作原理,初步研究了该系统的概念设计方法以及安装方案,并对其水动力性能进行了数值模拟计算.展开更多
The study focuses on the flexible jumper issue of Subsurface Tension Leg Production （STLP） system concept, which is considered as a competing alternative system to support well completion devices and rigid risers in...The study focuses on the flexible jumper issue of Subsurface Tension Leg Production （STLP） system concept, which is considered as a competing alternative system to support well completion devices and rigid risers in ultra-deep water for offshore petroleum production. The paper presents analytical and numerical approaches for the optimum design and global analysis of the flexible jumper. Criteria using catenary concept are developed to define the critical length for optimum design. Based on the criteria, detailed hydrodynamic analyses including quasi-static analysis, modal analysis, and dynamic analysis are performed. Modal analysis with respect to the quasi-static analysis shows that the existence of resonant modes requires special consideration. The results of dynamic analysis confirm the effectiveness of the de-coupled effect from the jumper on STLP system. The approaches developed in the study also have wide application prospect in reference to the optimum design and analysis of any Hybrid Riser （HR） concept.展开更多
文摘针对我国南海环境条件下超深水海洋油气资源开发中的特有问题,提出一种新型超深水海洋油气开发装置概念——张力系泊式水中生产系统(subsurface tension leg production system),简称STLP系统.STLP系统具备水中完井和油气外输功能以及各种浮式生产平台.阐述了STLP系统的基本工作原理,初步研究了该系统的概念设计方法以及安装方案,并对其水动力性能进行了数值模拟计算.
基金financially supported by the National Natural Science Foundation of China(Grant No.51221961)
文摘The study focuses on the flexible jumper issue of Subsurface Tension Leg Production （STLP） system concept, which is considered as a competing alternative system to support well completion devices and rigid risers in ultra-deep water for offshore petroleum production. The paper presents analytical and numerical approaches for the optimum design and global analysis of the flexible jumper. Criteria using catenary concept are developed to define the critical length for optimum design. Based on the criteria, detailed hydrodynamic analyses including quasi-static analysis, modal analysis, and dynamic analysis are performed. Modal analysis with respect to the quasi-static analysis shows that the existence of resonant modes requires special consideration. The results of dynamic analysis confirm the effectiveness of the de-coupled effect from the jumper on STLP system. The approaches developed in the study also have wide application prospect in reference to the optimum design and analysis of any Hybrid Riser （HR） concept.
